3-Hexanone

    • Product Name: 3-Hexanone
    • Alias: Ethyl propyl ketone
    • Einecs: 211-546-6
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    939823

    Cas Number 589-38-8
    Iupac Name Hexan-3-one
    Molecular Formula C6H12O
    Molar Mass 100.16 g/mol
    Appearance Colorless liquid
    Odor Sweet, fruity odor
    Boiling Point 123-125 °C
    Melting Point -44 °C
    Density 0.813 g/cm³ at 20 °C
    Solubility In Water 13 g/L at 20 °C
    Refractive Index 1.407 at 20 °C

    As an accredited 3-Hexanone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 3-Hexanone is packaged in a 500 mL amber glass bottle with a tight-sealing polypropylene cap and chemical hazard labeling.
    Shipping 3-Hexanone should be shipped in tightly sealed containers, away from heat and sources of ignition, as it is flammable. It must be clearly labeled and comply with relevant regulations for hazardous chemicals. Proper ventilation, protective packaging, and transport documentation are essential to ensure safe handling and delivery.
    Storage 3-Hexanone should be stored in a tightly sealed container in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible substances such as strong oxidizers and acids. Ensure containers are clearly labeled and kept away from direct sunlight. Use explosion-proof equipment where necessary due to its flammability. Store at room temperature and away from moisture.
    Application of 3-Hexanone

    Applications of 3-Hexanone in Industrial Manufacturing

    As a direct manufacturer of 3-Hexanone, we have supported leading formulators in several advanced sectors by integrating this aliphatic ketone into process workflows. The downstream industrial landscape for 3-Hexanone spans chemical synthesis, industrial coatings, specialized adhesives, and fragrance intermediates, where reliability of supply and application guidance remain critical. Below, we present focused, factual scenarios rooted in our material’s verified industrial performance.

    1. Agrochemical Intermediate Synthesis

    3-Hexanone serves as a building block for selected agrochemical active ingredients and intermediates, inserted at key stages of fine chemical synthesis. Its use is valued for the specific carbon chain structure influencing the formation of targeted compounds such as certain herbicides. The substance’s integration requires close control to minimize trace residues and maintain process safety, in compliance with crop protection sector expectations.

    Industry compliance standards

    • FAO/WHO Joint Meeting on Pesticide Specifications (JMPS)
    • REACH Regulation (EC) No 1907/2006—Substance Registration and Use
    • ISO 9001:2015 Quality Management for Agrochemical Production
    • Chinese Ministry of Agriculture standards for pesticide intermediates

    Typical usage ratio

    • Between 8% and 20% by weight of total reaction batch, adjusted based on desired molecular derivation and downstream conversion efficiency. Lab trials set the initial proportion; plant scale-up often optimizes for reaction yield and impurity minimization.

    Downstream process integration

    • Added as a key substrate in the condensation or alkylation step of multi-stage synthesis routes for selected herbicide or pesticide molecules. Introduction timing and reaction conditions depend on precursor compatibility and thermal stability of intermediates.

    Final product types

    • Herbicidal actives (e.g., acetoacetamide derivatives)
    • Crop protection intermediates (for fungicides and insecticides)
    • Technical grade pesticide formulations

    2. Solvent Carrier in Industrial Coatings

    The controlled volatility and solvent power of 3-Hexanone make it suitable as a co-solvent in industrial coatings, particularly where balance between evaporation rate and wetting capability underpins film integrity. Specifically, the product gets integrated in basecoat formulations for metal and plastic substrates, where consistent gloss and smooth film formation are essential to meet downstream users’ durability requirements.

    Industry compliance standards

    • ASTM D5402—Practice for Determining Solvent Resistance
    • EU VOC Directive 2004/42/EC for Industrial Paints and Varnishes
    • ISO 12944—Corrosion Protection of Steel Structures by Coating Systems
    • China GB/T 23985-2009 for Industrial Protective Paints

    Typical usage ratio

    • Ranges from 3% to 7% by formulation volume, adjusted to achieve target viscosity and drying profile. Lower limits preferred in sprayable systems to balance leveling and solvent pop risk during rapid film formation.

    Downstream process integration

    • Incorporated during the let-down stage of paint blending, often co-solvated with butyl acetate or other medium-evaporation solvents. Selection based on compatibility testing with resin and pigment systems and worker safety evaluations.

    Final product types

    • General industrial enamels
    • Automotive undercoats and primers
    • Protective anti-corrosion coatings for machinery housings

    3. Precursor for Fragrance and Flavor Intermediates

    Downstream fragrance formulators employ 3-Hexanone as a tailored precursor for synthesizing specific aliphatic aldehydes and lactones, which impart unique green and fruity character to perfumes and food flavorings. The tightly regulated use of this ingredient mandates close adherence to food-contact chemical guidelines, and batch traceability forms a mandatory aspect of supply contracts.

    Industry compliance standards

    • IFRA Code of Practice—Safety Guidance on Fragrance Ingredient Manufacture
    • FDA 21 CFR Part 172.515—Synthetic Flavoring Substances
    • EU Regulation (EC) No 1334/2008 on Flavourings
    • ISO 9235—Aromatic Raw Materials for Fragrance Industry

    Typical usage ratio

    • Used at 2–6% by weight in target aldehyde or lactone synthesis routes, calculated against total organic raw material input. Higher ratios apply when structural conversion rates in catalytic oxidation require process intensification.

    Downstream process integration

    • Charged during the initial oxidation or Baeyer–Villiger oxidation phase to generate lactone or aldehyde intermediates; integration coordinated with catalyst loading and pH control in stainless steel reactors to ensure product color and purity compliance.

    Final product types

    • Commercial fragrance base ingredients (e.g., hexyl aldehydes, hexanol derivatives)
    • Edible flavor compounds for baked goods, confectionery, or beverage flavoring
    • Ready-to-use aroma chemical concentrates for perfumery

    4. Processing Aid in Specialized Adhesive Manufacturing

    Downstream adhesive formulators use 3-Hexanone as a process solvent where its kinematic properties support tackifier dissolution and control of adhesive open time. The substance allows adhesive compounding lines to fine-tune gel-point and setting characteristics, proving especially suitable in industrial contact adhesives for automotive and construction joinery.

    Industry compliance standards

    • ISO 9001:2015—Quality Management for Adhesive Production
    • ASTM D1084—Test Method for Viscosity of Adhesives
    • Restriction of Hazardous Substances Directive (RoHS) for industrial assembly adhesives
    • China GB 18583-2008—Adhesive Hazardous Substance Limitations

    Typical usage ratio

    • Employs 4–12% by mass of the liquid phase, regulated based on polymer backbone type and required open-time; precision metering pumps ensure consistent dosing batch-to-batch for both solvent-based and hybrid waterborne formulations.

    Downstream process integration

    • Added in the solvent blending tank prior to polymer or resin charging, where the compound disperses tackifiers and impacts rheology. Used under exhaust ventilation with flashpoint controls validated during scale-up trials.

    Final product types

    • Industrial contact adhesives for flooring installation
    • Automotive interior bonding adhesives
    • Specialty laminating adhesives for engineered wood panels

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    Certification & Compliance
    More Introduction

    3-Hexanone: Experience at the Core of Production

    From inside the reactor halls and along the pipes and drums, a chemical becomes more than a formula. 3-Hexanone, known in the industry for its direct structure and straight-forward carbon backbone, carries plenty of hands-on stories from those who produce it at scale. Here, experience runs deeper than lab sheets—shaped by years of real work refining the compound for industries that rely on reliable, consistent outcomes.

    Understanding What Sets 3-Hexanone Apart

    On a practical level, 3-Hexanone stands out from lower or higher analogues (like 2-hexanone and 2-heptanone) because of its unique position and branching in the carbon chain. The placement of the carbonyl function on the third carbon makes its physical and olfactory properties distinct, just as the small differences in boiling point and solubility often matter when scaling up for synthesis. This compound brings a mild, slightly sweet scent—noticeably less harsh than some isomers. Sometimes that’s exactly what a downstream user wants, especially when the end product calls for a subtle profile and dependable reactivity.

    Our operation grew up with the needs of flavor and fragrance manufacturers, solvent extraction teams, as well as those serving the agrochemical and pharmaceutical sectors. 3-Hexanone’s use in these lines isn’t simply academic. In real terms, the production team focuses on two things: throughput purity and batch traceability. We learned early on that minor impurities can trigger expensive rework or product recalls down the chain. We keep columns calibrated, feeders tuned, and time spent monitoring every charge and distillation.

    Model and Specification: Delivering What Matters

    The 3-Hexanone we produce follows a specification tailored from industry feedback rather than abstract regulatory tables. Most customers expect purity at 98% or above by GC, with water levels kept minimal—often below 0.1%. This level doesn't just look good on a COA. It gives process engineers smoother downstream reactions, allowing them to push yields without constant worries about side reactions.

    In our facility, we’ve learned, for example, that batch-to-batch consistency means more than just the main assay number. Odor thresholds, color, and the profile of trace organics can make or break an order. On the line, our team rejects any off-spec batches fast, running extra purification cycles or tweaking temperature ramps based on the experience of past runs. For our customers, repeatability often trumps theoretical maximums.

    Technical Challenges: Knowledge Gained Firsthand

    Seasoned operators know that 3-Hexanone isn’t just a molecule. Its smooth production depends on keeping water vapor and oxygen at bay, given the risk of oxidation or side formation. We’ve had to adapt venting strategies to avoid undesired condensation, especially during humid months, where even a brief opening can shift a whole batch’s profile.

    When scaling up synthesis, minor thermal spikes can push the product off-spec. Over the years we’ve built up an internal database that flags problematic trends before a full run goes to waste. For example, we spotted that low-level contaminants sometimes stemmed from upstream solvents, not just the main reactants. Our lab team cross-references suspect lots for each production cycle, tagging anomalies in real time rather than reacting once the tanks are full.

    Operator Experience and Daily Processes

    You can walk through our manufacturing floor and see how habits born from sharp attention shape the process. Our crew checks levels and tightens seals on every shift, not just trusting remote readouts. Every batch gets spot-calibration for moisture analysis—no one relies on a single instrument. These details come from years spent correcting problems before they snowball.

    During distillation, operators rely more on experience than automation. A sudden drift in color or the onset of unfamiliar odor is enough to pause and consult the in-house panel. While software trends help, nothing tops a nose that knows what should or shouldn’t come off the condenser. Our best batches come not from luck, but from habit—checking, caution, and dialogue.

    Using 3-Hexanone in Industry

    In essence, 3-Hexanone serves as a valued building block across several end uses. In flavor and fragrance, it’s prized for the nuance it brings without overpowering notes. The food industry sometimes pulls it into process streams where a mild, slightly green note proves just right. Downline, pharmaceutical and agrochemical developers rely on its consistent reactivity and workability for synthesis steps that can’t tolerate variation.

    As a solvent, 3-Hexanone behaves with a balance between volatility and solvency. It dissolves mid-polar organics efficiently—some teams prefer it over butanone when a slower evaporation rate is desired. In polymer work, for example, it helps mediate certain reactions or serve as a work-up reagent when others cause cross-reactions or leave problematic residues.

    Many production customers tell us that switching between different chain isomers changes downstream color or finish, even if the chemistry appears similar on paper. 3-Hexanone’s own profile minimizes these challenges. We’ve fielded calls from customers struggling with yellowing or off-odors, which often comes back to unnoticed differences in minor impurities between similar ketones. That’s why upstream producer habits drive so much of the end-use quality, though evaluators in distant labs don’t always see that story.

    Comparison with Similar Molecules

    We often speak with engineers and buyers comparing 3-Hexanone with its cousins in the ketone family. Each isomer reacts slightly differently—on the bench and on the factory line. For example, 2-Hexanone shows up with a more pungent odor, a touch higher in volatility, and it can lead to different reactivity when used in fine-tuning reaction conditions or product development.

    From a producer’s perspective, chain length and position impact not only end-use properties but also how manageable the product is during handling and storage. 3-Hexanone lines cleanly, stores with less tendency to form problematic peroxides, and doesn’t leach as much material through gaskets or joints compared to the heavier ketones. We tune cylinder and drum selection to minimize breathing losses, which became especially important in the summer—years of experience sharpened those choices, beyond what standard tables suggest.

    Downstream users often remark on the specific boiling point and flash behavior. 3-Hexanone boils at around 123°C, which fits neatly between lighter and heavier chain relatives. Teams relying on staged distillation or multi-reactant feeds see tangible savings on energy and cleaning when using this product compared to alternatives that require more aggressive conditions.

    Environmental and Safety Considerations

    Sustainability plays a practical role in production, not simply a catchword. Vapor recovery systems are tuned to minimize atmospheric releases, not because regulations alone say so, but because the experienced operators know that fugitive emissions eat into both yields and compliance margin. Heat integration and solvent recycling run as part of the process, shaped by years of juggling both resource costs and safety margin.

    Workers keep spill kits local and know the action plan from real-world drills. Subtle leaks aren’t always visible but can show up as slight changes in room air composition. Standard sensors catch the obvious spikes, but experienced staff catch the early hints first. Over time, the crew has developed a routine of walkdowns, swapping filters, and cross-checking with old incident logs to spot creeping risk before regulators or audits mandate changes.

    Waste handling reflects practical concerns about local water quality and partner site expectations. Any waste stream with even trace 3-Hexanone passes through enhanced treatment, not just to meet the numbers, but because downstream partners look for cleaner input and reliable behavior. By analyzing spent catalyst and solvent in batches, the technical team trims recycle loops and blocks what would be routine waste elsewhere.

    Adaptation and Continuous Improvement

    Experience is the best teacher here. Small adjustments over the years have made the process both smoother and safer. Pressure relief settings are logged after each near-miss, and records from past years shape today’s response. New hires learn through shadowing and on-the-job checks rather than just reading from a manual.

    Maintaining batch quality keeps everyone alert. Sometimes, we see shifts in feedstock purity, and those lessons turn into process upgrades—better filters, staged charging, or revised piping. Long after a capital project closes, regular team meetings track whether actual results match expectations, cross-referencing with the lessons cataloged over decades.

    In shipping and logistics, careful attention keeps 3-Hexanone in top form for its journey to the customer. Drum selection, fill heights, and palletizing methods all evolved over time as we discovered what worked best in transit. Avoiding excessive headspace and maintaining airtight seals sounds simple, but the details matter—freight damage and pressure excursions dropped noticeably after teams made seemingly minor tweaks to shipment prep.

    Relationships with Customers and Feedback

    Open lines with formulators and QA managers underpin long-term supply partnerships. Customers provide direct input about which properties affect their process the most—sometimes these insights reveal new angles we didn’t see from the production side. It only takes one off-grade shipment to see the cost of shortcuts. If a customer reports a deviation, the technical team digs into batch histories, comparing process conditions with shipment records, to hammer out the true cause.

    Questions never stop at routine COAs; teams want to know the actual trace profile, shelf life under varying conditions, and how 3-Hexanone interacts with specific glassware, hoses, or mixing tanks. We’ve run side trials with customer-submitted matrices and worked out collaborative blends to address solubility or reaction-rate pain points.

    The field connection improves both process and product. Years back, formulators highlighted minor yellowing in a specific application. Our team traced the problem to a secondary impurity below 100 ppm—changing a purification resin batch cut the defect rate to zero. That learning became a permanent shift in our QA routine and built stronger trust with buyers.

    Innovation through Pragmatism

    As markets evolve, industrial processes shift, and regulatory pressures tighten, the crew draws on a combination of practical skill and flexibility. Tweaks to the synthesis route, often spurred by new supplier quality or legislation, get run through pilot units before any full scale-up. No change goes in blind; test batches get made, sampled, and shipped for joint checks before anyone alters the everyday process.

    Production histories can stretch back to when manual batch records filled metal-bound ledgers. Today, electronic logs keep steps transparent and searchable, but the value comes from the people watching trends—not just from data tables. If a process tweak offers efficiency, it stays only if it delivers reliability, not just a point on a spreadsheet.

    Why 3-Hexanone Remains Relevant

    Production of 3-Hexanone isn’t only about meeting today’s orders. Emerging areas—from specialty polymers to new green chemistry applications—start to view this molecule as a key ingredient. Our technical liaison spends time screening samples in pilot streams, pursuing ways to blend performance with regulatory edge as market trends shift.

    Decades spent making, tweaking, and delivering 3-Hexanone taught us that dependable production matters far more than buzzwords. Customers build equipment and design processes with the expectation that every drum will match the last—not just on paper, but where it actually counts: reactivity, stability, and consistency from lot to lot.

    The product earns its place through hands-on proof. From open-top tanks, walks along the loading dock, late shifts during turnaround seasons, and collaborations with QA teams around the globe, it’s clear why 3-Hexanone stands out in the real world of chemical manufacturing. The value comes not just from the molecule, but from the work, care, and accumulated knowledge that goes into every shipment.

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